MAXQ615-KIT#

MAXQ615 Evaluation Kit Evaluates: MAXQ615 General Description The MAXQ615 evaluation kit (EV kit) provides a proven platform for conveniently evaluating the capabilities of the MAXQ615 low-power, 16-bit, RISC microcontroller targeted for battery-powered applications. The EV kit includes a MAXQ615 EV kit board, example software, USB-to-JTAG interface board, 10-pin JTAG interface cable, and a standard A-to-mini-B USB cable for connecting to a personal computer. The EV kit board, which provides pin headers providing access to the processor’s I/O port pins, a 5V power-supply input, pushbutton switches for user input, and an on-board SPI ADC and I2C temperature sensor for demonstration purposes. The EV kit provides a complete, functional system ideal for developing and debugging applications as well as evaluating the overall capabilities of the MAXQ615 RISC processor. Features S Easily Loads and Debugs Code Using Supplied JTAG Board S JTAG Interface Provides In-Application Debugging Features  Step-by-Step Execution Tracing  Breakpointing by Code Address, Data Memory Address, or Register Access  Data Memory or Register Content View and Edit S On-Board 3.3V Voltage Regulator S On-Board DS1775 I2C Temperature Sensor S On-Board MAX1118 SPI ADC S Two User-Input Pushbutton Switches with Paired Indicator LEDs (Connected to GPIO) S Prototyping Area S (Optional) +5V Regulated, Minimum 250mA Capacity, Center Post Positive Power Supply with 2.5mm Jack. Models that have been used in the past include CUI Inc. model DPR050030-P6P-SZ and V Infinity model EPS050100-P6P. If the EV kit is powered through the USB-to-JTAG adapter (through the 5V supply provided on the JTAG cable), then this power supply is not needed. EV Kit Contents S MAXQ615 EV Kit Board with Either Socketed MAXQ615 (XU1) or Soldered MAXQ615 (U4) S USB-to-JTAG Adapter Board S 2 x 5-Pin Connector Ribbon Cable (0.1in spacing) for JTAG Programming S Standard A-to-Mini-B USB interface Cable S MAXQ615 EV Kit CD (includes the MAXQ615 IC data sheet and user’s guide; MAXQ615 EV kit quick start guide, data sheet, and schematics; application notes; utilities and configuration files; and example programs including source code). Go to www.maximintegrated.com/evkitsoftware to download the latest version of the EV kit CD. Figure 1. MAXQ615 Evaluation Kit Board Ordering Information appears at end of data sheet. For pricing, delivery, and ordering information, please contact Maxim Direct at 1-888-629-4642, or visit Maxim Integrated’s website at www.maximintegrated.com. 19-6413; Rev 0; 7/12 MAXQ615 Evaluation Kit Evaluates: MAXQ615 Windows® PC IAR EMBEDDED WORKBENCH® FOR MAXQ® Rowley CrossWorks FOR MAXQ® USB-TO-JTAG INTERFACE MODULE +5.0V EXTERNAL SUPPLY 5V POWER OPTIONAL: MAX-IDE, MICROCONTROLLER TOOL KIT (MTK) USB 3.3V POWER SUPPLY JTAG RESET SWITCH JUMPERS SPI INTERFACE ADC JUMPERS MAXQ615 MICRO MAXQ615 EVALUATION KIT I2C INTERFACE TEMP SENSOR JUMPERS LEDs, GPIO, SWITCHES Figure 2. MAXQ615 EV Kit System Block Diagram Windows is a registered trademark of Microsoft Corp. IAR Embedded Workbench is a registered trademark of IAR Systems AB. MAXQ is a registered trademark of Maxim Integrated Products, Inc. Maxim Integrated   2 MAXQ615 Evaluation Kit Evaluates: MAXQ615 Component List DESIGNATION QTY DESCRIPTION DESIGNATION QTY C1, C7, C10– C12, C14 6 1FF, 16V ceramic capacitors (0603) R3, R4 2 1.8kI Q1%, 1/10W SMD resistors (0603) C2 1 2.2FF, 6.3V ceramic capacitor (0603) R5, R7 2 110I Q1%, 1/10W SMD resistors (0603) C3, C6, C8, C9, C13 5 100nF, 16V ceramic capacitors (0603) R6, R8 2 402I Q1%, 1/10W SMD resistors (0603) SW1–SW3 2 SPST normally open pushbutton switches, 6mm, B3S-1002 TP1–TP21 21 Test points U1 1 150mA linear regulator (5 SOT23) Maxim MAX8877EUK33+ U2 1 Serial 2-channel ADC (8 SOT23) Maxim MAX1118 U3 1 I2C temperature sensor (5 SOT23) Maxim DS1775 U4 1 Microcontroller (16 TQFN-EP) Maxim MAXQ615-F00+ XU1 1 Microcontroller socket Maxim MAXQ615-F00+ — 0 PCB: MAXQ615 EV KIT C4 1 10nF, 25V ceramic capacitor (0603) C5 1 4.7FF, 10V ceramic capacitor (0603) D1, D5, D6 3 Surface-mount, 570nm green LEDs (0603) LG L29K-G2J1-24-Z D2 1 SMAJ5.0A (DO-214AC, SMA) D3, D4 2 CGRM4001-G (SOD-123F) 1 Fuse 200mA resettable (0603) MF-FSMF020X-2 F1 J1 1 2.5mm power jack, through-hole mount, center post positive J2 1 2 x 5 header pins, 0.1in spacing JU1–JU12 12 2 x 2 header pins, 0.1in spacing MH1–MH4 4 Mounting holes R1 1 845I Q1%, 1/10W SMD resistor (0603) R2, R9 2 10kI Q1%, 1/10W SMD resistors (0603) DESCRIPTION Detailed Description on-board linear regulator (U1) regulates the +3.3V VDD power rail that is used by the MAXQ615. This EV kit should be used with the following documents: If the MAXQ615 kit is “free-running,” that is, if you are running an application that has been previously loaded into the MAXQ615, and you do not need to use the loader or debugger, the board may be powered by a 5V DC wall supply connected to plug J1. The supply must be center post positive, DC 5V regulated, with a 250mA minimum capacity. • MAXQ615 IC data sheet • MAXQ615 user’s guide • MAXQ615 EV kit data sheet These documents are included on the MAXQ615 EV kit CD, along with additional documentation and application notes. For the latest versions of the documents listed above, go to www.maximintegrated.com/MAXQ615. This document includes full schematics for the EV kit. Descriptions of the major sections and functions of the board follows. Power Supply The MAXQ615 EV kit can be powered in several ways. The board can be powered from the USB-to-JTAG adapter. The adapter provides a +5V DC supply. From this, an Maxim Integrated By removing jumper JU1 and connecting a power supply in its place, it is also possible to power the MAXQ615 from a DC bench supply or other regulated power source. In this case, any power-supply voltage compatible with the device(s) that will be powered may be used; refer to the MAXQ615 IC data sheet for more details on the allowable range for the power supply. Reset Pushbutton Pushbutton SW3 can be used to manually reset the MAXQ615.   3 MAXQ615 Evaluation Kit Evaluates: MAXQ615 Serial ADC The EV kit board includes a MAX1118 2-channel serial ADC (U2). By connecting the appropriate jumpers, the ADC can be connected to the MAXQ615, and is used to demonstrate the microcontroller’s SPI communication interface. Each of the two ADC channels can be connected to the cathode of an on-board LED, and can be used to measure the voltage drop across the LED. The CD included with this EV kit includes sample code to demonstrate how to interact with the ADC. I2C Temperature Sensor The EV kit board includes a DS1775 I2C temperature sensor (U3). By connecting the appropriate jumpers, the temperature sensor can be connected to the MAXQ615, and is used to demonstrate the microcontroller’s I2C communication interface. The CD included with this EV kit includes sample code to demonstrate how to interact with the temperature sensor. GPIO Pushbuttons and Indicator LEDs The two pushbuttons on the EV kit board can be connected to the MAXQ615 GPIO pins P1.0 and P1.1 by closing the associated jumper. See Table 1 for a description of the jumpers. If the pushbutton is pressed, it will pull the attached port pin low. The label indicating which port pin is tied to the switch is found on the board next to the switch. Switch SW2 pulls pin P1.0 (P10 label) low and switch SW1 pulls pin P1.1 low. The indicator LEDs (D5 and D6) next to each switch can also be connected to the port pin by closing the associated jumper (as detailed in the jumper table). The LED will be illuminated if either the GPIO pin connected to it is driven low, or the pushbutton switch is pressed. Jumper Function List Table 1 details the functions of the configurable jumpers on the EV kit board. Settings in the table marked with “*” indicate jumper placements that should be used for most normal operation (default settings). Table 1. Jumper Functions JUMPER SETTING EFFECT OF SETTING Open No on-board supply is connected to the VDD rail. To operate the EV kit, an external bench supply must be connected to JU1.2 or one of the VDD test points. Refer to the MAXQ615 IC data sheet for acceptable operating range information for the VDD supply. *Closed The +3.3V output from the on-board linear regulator (U1) is connected to the VDD rail. This supply will be used to power the MAXQ615 (as long as JU2 is closed), as well as the demo components U2 and U3 and the LEDs D5 and D6. JU1 JU2 Open *Closed The 5V pin on the JTAG cable is not connected to the on-board linear regulator supply input. If this position is used, then either a 5V external supply must be connected to J1 or a bench supply must be connected to JU1.2 or a VDD test point (with JU1 open) Closed The MAXQ615 EV kit may be powered directly through the USB-to-JTAG adapter’s 5V supply (from the USB bus supply) Open Closed Open JU5 Closed Open JU6 Maxim Integrated The VDD pin on the MAXQ615 is connected to the on-board VDD power supply rail. Open JU3 JU4 No power is provided to the MAXQ615. This position should only be used when connecting a current meter between JU2.1 and JU2.2 to measure power consumption by the MAXQ615. Closed No effect The channel 1 input (CH1) on the ADC U2 is connected between LED D5 and R6 (see the EV kit schematic). This can be used to measure the diode drop across D5, for demonstration purposes. No effect The channel 0 input (CH0) on the ADC U2 is connected between LED D6 and R8 (refer to the kit schematic). This can be used to measure the diode drop across D6, for demonstration purposes. No effect The “start conversion on falling edge” pin on the MAX1118 (U2) is connected to pin P0.3 on the MAXQ615. Refer to the MAX1118 IC data sheet for more information on initiating A/D conversions and reading conversion results.   4 MAXQ615 Evaluation Kit Evaluates: MAXQ615 Table 1. Jumper Functions (continued) JUMPER SETTING Open JU7 Closed Open JU8 Closed Open JU9 Closed Open JU10 Closed Open JU11 Closed Open JU12 Maxim Integrated Closed EFFECT OF SETTING No effect The DOUT pin on the MAX1118 is connected to the SPI 0 interface MISO pin (P0.1) on the MAXQ615. No effect The SCLK pin on the MAX1118 is connected to the SPI 0 interface pin SCLK (P0.2) on the MAXQ615. No effect Connects the SDA pin on the I2C temperature sensor (DS1775, U3) to the I2C SDA pin (P1.3) on the MAXQ615. Also connects the I2C bus pullup resistor (R3) to the SDA pin on the MAXQ615. No effect Connects the SCL pin on the I2C temperature sensor (DS1775, U3) to the I2C SCL pin (P1.2) on the MAXQ615. Also connects the I2C bus pullup resistor (R4) to the SCL pin on the MAXQ615. No effect Allows the green LED D5 to be controlled using the port pin P1.1 (driving the port pin low lights the LED). Also, pressing SW1 will both drive P1.1 low and cause the LED to light. No effect Allows the green LED D6 to be controlled using the port pin P1.0 (driving the port pin low lights the LED). Also, pressing SW2 will both drive P1.0 low and cause the LED to light.   5 4 3 2 J5V 1 RESET TP19 TP13 TP2 TP21 TP20 TP1 TP12 TP18 MH4 MT HOLE 125-200 MH3 MT HOLE 125-200 MH2 MT HOLE 125-200 MH1 MT HOLE 125-200 TP6 TP5 TP4 TP3 TP17 TP16 TP15 TP14 TP11 TP10 TP9 TP8 LED0 LED1 P00 P01 P02 P03 P04 P05 P06 P07 P10 P11 P12 P13 Add breadboard area in extra space using thru holes on 0.1 inch centers. Place testpoints on 0.1 inch centers. R9 10K Mount Holes VDD RST_N VDD C5 4.7uF 10V JU5 JU4 C7 1uF 16V P00 P01 P02 P03 P04 P05 P06 P07 P10 P11 P12 P13 SW3 RESET D4 D3 ANI0 ANI1 100nF C6 JU2 VDD 1 2 3 4 MAXQ_VDD P03 P12 P13 200mA 1 2 3 4 SCLK DOUT CNVST REF MAX1118 VDD CH0 CH1 GND U2 8 7 6 5 D1 LED, GREEN 5V RST_N P0.0 P0.1 P0.2 U4 MAXQ615 C10 1uF 16V SCLK MISO R2 10K JU7 JU8 JU6 C11 1uF 16V P0.7 P0.6 P0.5 P0.4 MAXQ615 D2 SMAJ5.0A 100nF C9 MAXQ_VDD F1 SPI A/D Converter VDD RST_N P00 P01 P02 CGRM4001-G CGRM4001-G 16 15 14 13 P1.3 P1.2 P1.1 P1.0 P0.3 VDD REG18 GND 5 6 7 8 EP Maxim Integrated EP J1 PJ-102B 5.0V DC, 2.5MM 1 3 2 P02 P01 P03 12 11 10 9 P11 P10 R1 845 100nF C3 VDD P07 P06 P05 P04 C1 1uF 16V 1 2 3 P11 P10 P12 P13 P05 P04 P07 P06 JU11 R5 R7 110 110 LED0 D6 LED, GREEN P10 TP7 VDD JTAG C2 2.2uF 6.3V 2 4 6 8 10 VDD VDD RST_N VDD VDD JU3 U3 VDD GND R6 402 LED1 2 4 2 1 SW1 2 1 SW2 D5 LED, GREEN P11 DS1775 SCL SDA O.S. VDD 1 5 3 P11 J5V 100nF C8 VDD P10 I2C Temp Sensor R8 402 O.S. SCL SDA R3 1.8K TCK GND TDO VREF TMS nRST KEY VCC5 TDI GND J2 R4 1.8K 1 3 5 7 9 GPIO JU12 C4 10nF 25V JU1 JTAG Connector 4 5 JU10 JU9 MAX8877EUK33+ IN OUT GND BP SHDN U1 Power Supply 3 4 3 4 MAXQ615 Evaluation Kit Evaluates: MAXQ615 Figure 3. MAXQ615 EV Kit Schematics (Sheet 1 of 2)   6 MAXQ615 Evaluation Kit Evaluates: MAXQ615 MAXQ615 Socket P12 P13 P1.3 P1.2 P1.1 P1.0 16 15 14 13 P11 P10 5 6 7 8 P0.7 P0.6 P0.5 P0.4 12 11 10 9 P07 P06 P05 P04 EP XU1 MAXQ615 P0.3 VDD REG18 GND RST_N P0.0 P0.1 P0.2 EP 1 2 3 4 RST_N P00 P01 P02 P03 MAXQ_VDD C13 100nF C12 1uF 16V C14 1uF 16V Figure 4. MAXQ615 EV Kit Schematics (Sheet 2 of 2) Maxim Integrated   7 MAXQ615 Evaluation Kit Evaluates: MAXQ615 Ordering Information PART TYPE MAXQ615-KIT# EV Kit #Denotes a RoHS-compliant device that may include lead(Pb) that is exempt under the RoHS requirements. Maxim Integrated   8 MAXQ615 Evaluation Kit Evaluates: MAXQ615 Revision History REVISION NUMBER REVISION DATE 0 7/12 DESCRIPTION Initial release PAGES CHANGED — Maxim Integrated cannot assume responsibility for use of any circuitry other than circuitry entirely embodied in a Maxim Integrated product. No circuit patent licenses are implied. Maxim Integrated reserves the right to change the circuitry and specifications without notice at any time. The parametric values (min and max limits) shown in the Electrical Characteristics table are guaranteed. Other parametric values quoted in this data sheet are provided for guidance. Maxim Integrated 160 Rio Robles, San Jose, CA 95134 USA 1-408-601-1000 ©  2012 Maxim Integrated Products, Inc. 9 Maxim Integrated and the Maxim Integrated logo are trademarks of Maxim Integrated Products, Inc.